In Zimbabwe, work has
identified ways in which smallholder dairy farmers can grow enough feed on
farm to ensure that their cows produce as much milk as possible.
Intercropping forage sorghum or pennisetums with lablab or cow pea produced
up to 8 tons of dry matter per hectare over a three year period - despite at
least one severe drought. Intercropping with legumes means that the fodder
produced contains good levels of protein. Plus, the feed produced can easily
be chopped and stored in plastic bags, providing silage that will help poor
producers to get through the dry season.
Project Ref: LPP03:
Topic: 2. Better Lives for Livestock Keepers: Improved Livestock &
Fodder
Lead Organisation: Marion Titterton, Zimbabwe
Source: Livestock Production Programme
Description
Research Programmes:
- Livestock Production Programme
- German-Israeli Foundation for International
Development
- Food and Agriculture Organisation
- Zimbabwe Grasslands Association.
Relevant Research Projects:
R7010
- University of Zimbabwe: Marion Titterton, Barbara Maasdorp, Basil Mugweni,
Lovemore Nyoni, Humphrey Hamidukwanda, Charles Mutisi
- Matopos Research Station: Owen Mhere
Research Outputs, Problems and Solutions:
The project purpose was to determine the
feasibility of producing and conserving sufficient biomass of high quality
forage on a small holding to maintain good productivity in small holder dairy
cows in the semi-arid region of Southern Africa during the dry season. The
outputs of this project were produced in the period 1998 to 2000.
Outputs were the following:
- Forage sorghum (S.
vulgare) and Pennisetums (P.purpureum and hybrids) can be
intercropped with lablab (dolichos bean, L.purpureus) or cow pea (Vigna
unguiculata) to produce up to 8 tons dry matter per hectare on sandy soil
under formal experimental conditions and up to 4 tons dry matter per hectare
under farming conditions.This is an average yield over three seasons, which
included a severe drought.
- Maize and forage
legume tree leaf were successfully ensiled to produce a high
quality silage with 11% crude protein.
- With the inclusion
of legume, the protein content of the harvested forage averages 11.5%
crude protein with a metabolisable energy ( ME) value of 9.2MJ/kg dry matter.
- The forage can be
successfully ensiled in quantities of up to 15 kg in reject fertiliser bags
or recycled plastic garbage bags using a hand or petrol driven chopper with
manual compression of the forage in the bags.
- Over two good seasons
it was found that enough bags were produced on farm (ranging from 130 to 400
bags over forty farms) to feed two cows one bag a day each for the last two
months of the dry season , i.e. two months before calving. This allowed the
cows to calve in good condition (average body condition score [BCS] 2.5)
which was shown to be important for normal conception but there was no
significant effect on lactation yields in indigenous and cross bred cows. In
the drought year, the equivalent of half a bag a day was fed to two cows for
one month before calving and this allowed body condition maintenance of 1.75
BCS which kept the cows alive, while control cows on no supplement were
emaciated or died.
See papers in Annex 1: Research Outputs
Types of Research Output:
Product |
Technology |
Service |
Process
or Methodology |
Policy |
Other
|
X |
X |
|
X |
|
|
Production Systems: 
Semi-Arid |
High
potential |
Hillsides |
Forest-Agriculture |
Peri-urban |
Land
water |
Tropical
moist forest |
Cross-cutting |
X |
X |
|
|
X |
|
|
|
Farming Systems: 
Smallholder
rainfed humid |
Irrigated |
Wetland
rice based |
Smallholder
rainfed highland |
Smallholder
rainfed dry/cold |
Dualistic |
Coastal
artisanal fishing |
| |
X |
|
|
X |
|
|
Potential for Added Value:
There are two ways which we propose will add value
to the output of our research. They are:
- Demonstration centres, which are model
small holder farms established strategically to be accessible to a large
surrounding community. They are each operated by a technician employed by the
project who is able to produce, conserve and feed forages using our
technologies and who is able to demonstrate and advise visiting groups or
individual farmers at any time. Each centre has a nursery which supplies forage
material to farmers and which operates a forage chopping chaffer for lease to
farmers.
- Mhere (2005) reported that farmers were
growing bana grass and forage legume tree for harvesting for silage in
Matabeleland North. This is a further step in the use of forage tree legume
in silage from the research we carried out on maize and forage tree legume,
since bana grass is better suited to the environment than maize.
- Feed and forage centres which are under
the management of a technician employed initially by the project but
ultimately by a business structure owned by farmers. These centres produce
bags or bales of forage for sale to the community.
The forage technologies which can be utilised here
are (by number and brief description):
- R7010 Silage
- R8339; R7346; R8296 Crop residues
- R7351 Cheap protein
- ZC0261 Dairy Toolbox
- R6153; R5732 Forages for dairying
- R6619 Box baling
- R5188 Stover and straw
- R6610 Urea Molasses blocks
- R7376 OXFEED
- Tropical forages CDRom
Validation
How the outputs were validated:
Interactive discussions during the on-farm trials.
Following formal trials on intercropping forage sorghum
and pennisetums with legumes and their ensilage with bags, on-farm trials
were held in the Gulathi communal area during the 1997-2000 seasons. During
this period, consultative meetings discussed the impact of the project which
have led to wider awareness within the community and beyond.
Outreach from the project :
Many enquiries on how to either join, get involved
with, or start a similar project in the East, South and South -West of
Gulathi have been received and those making enquiries seem to be conversant
with what is taking place at Gulathi. These activities have raised awareness
and changed the general perception towards dairy production by other
stakeholders in Matabeleland . Examples of these activities for the 1999/2000
season are:
Farmer training and information dissemination
workshop 15th April 2000
A farmer -led workshop was held to extend findings,
share experience and build interaction and communication techniques of
information exchange from farmer-to- farmer. Five groups were represented and
a total of 75 participants attended.
Farmer to farmer visits
Gulathi farmers hosted farmer groups from Wenlock
(Gwanda), Irisvale, Esigodini and Natisa.
Farmer to station
A field day jointly organized by the project and
the National Association of Dairy Farmers was attended by 26 producers on 28
April, 2000.
New initiatives
Four new projects were initiated within the Matobo
district influenced by the project at Gulathi. These are Gulathi (Lukadzi x
2), Vulindlela Ward (Lushumbi), Dema Ward (Natisa). In addition 3 wards in
the Gwanda district are mobilizing to initiate similar ventures.
Strengthening the linkages
Among the original collaborators, AREX (Extension
Branch of Matopos Research Station), Veterinary Department, Department of
Health and the District Council and DDP continue to be involved. New linkages
have been established with three NGO's: Masiye training camp in Silozwi, ENDA
Zimbabwe in the Dema and Vulindlela Wards and Ethandweni children's home in the
Whitewaters/Natisa area.
The National Dairy Development Programme (DDP)
together with an NGO (Africa Now) has taken up the project for further
funding and development. This has allowed the construction of a milk
collection centre (MCC), employment of a resident project officer and
purchase of improved animals and other activities.
Linkages among the main collaborators (Matopos
Research Station, AGRITEX, Veterinary Department, University of Zimbabwe and
the Department of Environmental Health) have been strengthened considerably.
Evidence that the outputs have continued to be
validated comes from a report on a six-month FAO project in 2005 (Mhere,
2005) where a detailed account was given on the training provided to leading
farmers and extensionists on forage production and conservation in
Matabeleland North and Matabeleland South. Following the training phase,
farmers were given bana grass and legume trees to intercrop and ensile.
While the project lasted six months, NGO promotion
is still continuing:
- World Vision in Gwanda has achieved expansion
(uptake by more farmers) in the same wards as 2004/2005.
- Plan International and Orap have increased uptake
in both the original and additional wards of Tsholotsho and have requested
further training.
- The Desert Margins Programme, funded by the Global
Development Facility is similarly promoting our forage and silage technology.
- Refereed research papers were published (Annex 1), a farmer's manual was produced (Annex 3) and papers were presented
to conferences (Annex 3) by the project researchers and leader.
Where the Outputs were Validated:
The outputs have been validated in smallholder
rainfed semi-arid systems in:
- Zimbabwe:
- Matebeleland North, Matebeland South and Midlands
Provinces. Validation was done through various developmental projects (Farmer
Field Schools- FFS) funded by FAO from 2002-2004 in Tsholotsho, Gwanda and
Zvishavane Districts. This involved an initial 500 farmers per district and
ended up directly benefiting more than 5000 farmers. Training was also done,
in 2002 and 2003, of 57 extension staff in the FFS extension methodology used
in validation.
- South Africa, Namibia, Zambia and Mozambique ( LPP
Dissemination Tour).
See: Annex 3. Dissemination papers.
Current Situation
Who are the Users?
Dairy Development Projects:
Although most of the projects are struggling to
significantly contribute milk to to DZL (Dairiboard Zimbabwe Ltd), they are
nevertheless making use of their outputs from the project. Gokwe in Midlands
Province, Hama Mavhaire in Masvingo Province and Irisvale and Gulathi groups
in Matebeleland South are located in semi-arid areas of Zimbabwe.
Rural communities in Tsholotsho, Gwanda and
Zvishavane Districts:
FAO in their FFS projects, (2002-2004) spearheaded
the wide-scale use of outputs from this project in 18 wards (all wards in
Tsholotsho) and involving +3000 farmers. Later in 2004, ORAP (an NGO) took up
the initiative and concentrated efforts in 5 wards. World Vision in Gwanda
and Matobo districts continue to use the outputs in these two districts,
albeit on a small scale due to recurrent droughts (smallholder milk
production schemes and draft oxen feeding programmes).
Large scale dairy farmers:
Those farmers still operating in Matebeleland and
peri-urban dairy schemes (Bulawayo and Gweru) continue to grow these forages
and ensiling for their livestock. This is being championed by NADF (the
National Dairy Farmers Association).
Where the outputs have been used:
Zimbabwe:
- Most of the 32 DDP schemes across the country
- Large scale milk producers
- Numerous enquiries from South Africa and Namibia
Scale of Current Use:
- Smallholder milk producers - milking
less than 10 animals
- Supplementation of draft animals in
Tsholotsho and Gwanda- feeding less than 5 oxen
- For NADF membes- limited to 20-25
animals. This is both locally and regionally.
Policy and Institutional Structures, and Key Components for Success:
- The most
likely successful uptake of research output is that where the research
objectives are generated by farmer demand. In this case, farmers
approached Matopos Research Station with the request that the research
station investigate ways in which their livestock could be fed for
maximum productivity throughout the dry season. This interactive
approach to a research project ensured high interest in the formal
experimentation and following that, excellent cooperation and
involvement in the on-farm trials.
- Dissemination
activities attempted in this project showed the importance of farmer
involvement in the whole process. It also showed the compatibility of
the technology with the individual farmer problems, with local
ecological, socio-cultural and economic conditions of these communities
who view milk production as a vehicle for change.
- Open
communication and strong multidisciplinary teams are essential for
appropriate technology development and testing.
- The
project requires a strong team leader who is available continuously
throughout the time span of the project and beyond and who leads a
team entirely on an interactive basis with frequent meetings and
consultations.
- The project
requires strong cooperation and collaboration between stakeholders. It
is one of the primary functions of the team leader to ensure this is
established early and is maintained throughout.
- An
outreach programme which is conducted simultaneously with on-farm trials
is very effective in promoting the technology developed in a project.
The overwhelming response by different communities to the farmer-centred
strategies used in our project showed the relevance of the project.
Lessons Learned and Uptake Pathways
Promotion of Outputs:
Currently, several NGOs are promoting forage
production and conservation:
World Vision in Gwanda has achieved expansion
(uptake by more farmers) in the same wards as 2004/2005.
Plan International and Orap have increased uptake
in both the original and additional wards of Tsholotsho and have requested
further training.
The Desert Margins Programme, funded by the Global
Development Facility is similarly promoting our forage and silage technology.
Potential Barriers Preventing Adoption of Outputs:
- Limited
resources for dissemination and extension services
- Limited
resources for training
- Limited
availability of plant material for forages
- Limited
resources for the Dairy Development Programme to provide field
technicians and machinery for the ensilage of forages.
How to Overcome Barriers to Adoption of Outputs:
- Training
courses in forage management (such as the one recently offered by
FAO in Zimbabwe) for extension personnel and leading farmers
- Demonstration
centres (as described above). Demonstrations centres would serve not
only to provide accessible tools for learning by farmers but for
providing essential services such as forage choppers, silage bags and
resources such as the Forage Manual produced by our team. These centres
not only serve to provide resources for forage production and
conservation but also for crop residue (stover) up-grading treatment and
storage, grass baleage and urea-molasses block-making. Demonstration
centres can also serve as meeting places for farmers to hold discussions
with extension staff, Dairy Development Programme staff, project staff
and other stakeholders.
- Nurseries
with plant material, attached to the demonstration centres. Our research
has shown that bana grass, forage sorghum, spineless cactus, forage tree
legumes, cowpea and dolichos bean are all suitable as forages and can be
grown from cuttings and seed grown and stored at a nursery. Initially,
nurseries are sources of plant material but will develop into resource
centres where farmers can be shown how to plant their own cuttings and
to store seed.
- Feed and
forage centres. An innovative approach but we can provide full details
of their establishment and operation, if requested, as proposed
for a project which had to be shelved due to withdrawal of funds.
Lessons Learned:
- If poor
people are shown an affordable method of making money, of improving the
quality of their life, they will be as quick to grasp the opportunity as
any business executive looking for investments that provide a good
return. However, like any farmer, be they subsistence or commercial,
they are conservative and are cautious about investing their time,
labour and money. On the other hand, being poor, they have more risk
management factors to consider than large scale farmers who have more
than one source of income and hence have spread their risks. Therefore,
poor people have to be given not only clear evidence of the benefits of
the output but resources for uptake and adoption of that output.
- Outputs
should derive from research which is demand driven and which is
participatory by farmers and researchers together.
- For
dissemination of output, farmer to farmer interaction or farmer to
directly approached demonstrator is more likely to result in uptake of
output than top-down dissemination. Arrangements of field days,
visits to sites, availability of resources and training are productive
only when followed up by accessibility to interactive demonstrations on
demand. Hence our proposals for demonstration centres. This suggests the
following format for dissemination:
- Provide
training and arrange field days to initially attract as large a number
of farmers in the community as possible.
- Encourage
leading farmers to extend invitations to large-scale event attendees to
visit them and see for themselves how the technologies are carried out
- Invite
farmers to visit the demonstration centres either individually or in
groups by request to learn not just by viewing procedures but
participating and by interaction with the demonstrators.
- Encourage
farmers to use services provided by the centres and to attend interactive
meetings with stakeholders.
- The
demonstration centres have to be sustainable, so charges for services
and resources will at some point need to be implemented in order to
make the centres self sufficient.
Impacts On Poverty
The positive impacts over three years recorded
were:
- The establishment of forage banks in areas
where grazing is unable to sustain livestock through the dry season;
- An improved understanding of feeding
management by farmers of their livestock to achieve productivity in milk and
calves;
- An improvement in body condition of milking
and breeding cows which led to continuity of milk supply and a significant
reduction in delay to conception after calving.
- An increase in income from milk sold and
from cattle sold.
- Maintenance of draught animals enabling
timely land preparation from the first rains and hence an increased crop
production especially in normal rainfall years.
Women farmers have been the largest group to
realise the impacts since they are the primary group responsible in the
family for tending livestock and milking cows. The silage bag
technology was designed with women and children in mind, since it allowed a
woman or child to easily transport the silage to the feeding area for their
livestock. One bag of silage is sufficient to feed two cows per day
enough for their nutritional requirements .
So far, it is estimated that six hundred farmers
have realised this impact.
During the tive years of the project, the following
was recorded on -farm and on-station in the smallholder dairy unit:
- Body
condition of cows increased from an average of 1.5 in October to 2.75 on
the Mulvaney scale, an
average percent increase;
- Production
of milk for sale increased for each livestock owner per annum from an
average of 600 litres to 1575 litres, an increase of 260%.
- Average
number of calves per livestock owner increased from five calves in three
years to eight calves in three years, an increase of 160%.
Environmental Impact
Direct and Indirect Environmental Benefits:
This technology, if adopted widely in the semi -
arid region will be a major benefit to the environment by providing relief
from the heavy grazing burden placed on the natural pastures over the dry
season. This will allow more grass to be re-established and provide more
competition to shrubs and small trees, which are a sure sign of poor grazing
management. With better quality grazing, livestock can improve their
condition in the rainy seasons so that it becomes easier to maintain
condition over the dry season. At the same time, soil erosion, of critical
importance in Sub-Saharan Africa, will be reduced.
Another important benefit lies in the amount of
water held by silage. Silage contains about 70% water and when fed to
livestock, reduces the need for water and hence the time and resources spent
in finding adequate water for their requirements. It also reduces the
pressure placed on limited water resources and environs.
Adverse Environmental Impacts:
The only adverse environmental impacts can be
perceived as risks. There is the risk that farmers may be encouraged to
increase their herd sizes because they believe they can sustain them on the
silage they've made when in fact their forage bank may not be adequate. In
that case, there would be further denudation of natural pasture.
Coping with the Effects of Climate Change, or Risk from Natural Disasters:
This technology, if adopted widely in the semi -
arid region will be a major benefit to the environment by providing relief
from the heavy grazing burden placed on the natural pastures over the dry
season. This will allow more grass to be re-established and provide more
competition to shrubs and small trees, which are a sure sign of poor grazing
management. With better quality grazing, livestock can improve their
condition in the rainy seasons so that it becomes easier to maintain
condition over the dry season. The use of dryland and drought resistant
forages will become more important as climate change and global warming
brings, in all likelihood, more drought and drier years to some regions. Improved condition of natural pastures (see 24) will increase the
resilience of the natural grazing.
Annex
Annex 1. Research output papers
Garwe, E., Ball, P. J. H.,
Hamudikuwanda, H., and Mutisi, C. (1999). Reproductive performance of
crossbred cattle developed for milk production in the semi arid tropics and
the effect of feed supplementation. Proceedings of the second DFID
workshop on livestock production programme projects in Zimbabwe held at Ingwe
Lodge, Matobo, Zimbabwe. 22-23 February 1999.
Nyoni, L. (2000). The effects of
breed and prepartum supplementation with Sorghum-Lablab silage on production
and metabolic profiles in cows in a semi-arid area of Zimbabwe. pp 33. MSc.
Thesis. University of Zmbabwe. Harare. Zimbabwe.
Mhere, O. 1999. Intercropping forage and
legume crops. In (Titterton et al.) Forage Production and
Conservation for Dry Season Feeding of Dairy Cows in the Semi-Arid Regions of
Zimbabwe. In (Ed. T. Smith) Proc. DFID Workshop on Livestock
Production in the Semi-Arid Regions of Zimbabwe. Matopos, Zimbabwe.
Feb.1999 pp 53-74.
Mhere, O., Maasdorp, B.V. and Titterton,
M. 1999. The effect of intercropping on production and ensilage of sweet
forage sorghum and pennisetum with cowpea and dolichos bean. In (Eds T. Smith
and W. Richards) Proc. Livestock Production Programme Workshop on Livestock
Research in Zimbabwe. Department for International Development, Matopos,
Zimbabwe.
Nyoni, L., Titterton, M., Hamudikiwanda,
H. and Mutisi, C. 2000. Body condition score and lactation responses in
indigenous and cross-bred cows in smallholder dairying systems in a semi arid
area of Zimbabwe. In (Eds.T. Smith and S.H. Godfrey) Sustaining Livestock in
Challenging Dry Season Environments. Proceedings of the third workshop on
Livestock Production Programme Projects. Matobo, Zimbabwe. 26-28 September,
2000. pp
Ashbell, G., Kipnis, T., Weinberg, Z.G.,
Hen, Y., Azriell, A., Kaller, S. and Titterton, M. 1999. Developing a
technology for ensiling forage crops for smallholder cattle owners in developing
countries. In Proc. XIIth Int. Silage Conference on Silage Production
in Relation to Animal Performance, Animal Health, Meat and Milk Quality.
Uppsala, Sweden. July 5. 1999.
Mugweni, B.Z. 2000. The effect of
feeding mixed maize-forage tree legume silages on milk production from
lactating Holstein dairy cows. M.Sc. Animal Science. Thesis. University
of Zimbabwe, Harare.
Mugweni, B.Z., Titterton, M., Maasdorp,
B.V. and Gandiya, F. 2000 . Effect of mixed-cereal-legume silages on milk
production from lactating Holstein dairy cows. In (Eds. T. Smith and
S.H. Godfrey) Sustaining Livestock in Challenging Dry Season Environments:
Strategies for Smallscale Livestock Farmers. Proceedings of 3rd workshop on Livestock Production Programme
Mhere, O., Maasdorp. B.V., Titterton,
M., Dube, S.M. and Heindrich, G. 2000. On farm assessment of forage yields
and silage quality of intercropped drought tolerant cereal and legume forages
crops. In (Eds. T. Smith and S.H. Godfrey) Sustaining Livestock in
Challenging Dry Season Environments: Strategies for Smallscale Livestock
Farmers. Proceedings of 3rd workshop on Livestock Production
Programme Projects. Matobo, Zimbabwe. 26-28 September, pp 76-81
Garwe, E.C., Ball, P.H., Hamudikiwanda,
H. and Mutisi, C. 2000. Reproductive performance of indigenous and cross-bred
cows developed for milk production in semi-arid regions and the effect of
food supplementation. In In (Eds. T. Smith and S.H. Godfrey) Sustaining
Livestock in Challenging Dry Season Environments: Strategies for Smallscale
Livestock Farmers. Proceedings of 3rd workshop on Livestock
Production Programme Projects. Matobo, Zimbabwe. 26-28 September, pp 82-89
Kipnis, T., Titterton, M., Ashbell, G.,
Weinberg, Z., Hen, Y., Azriell, A, Maasdorp, B. and Mhere,
2001. Development of ensiling technology
and its use by small holder cattle owners in the semi-arid region of
Zimbabwe. Final report submitted to the German-Israel Fund for Research and
International Development (GIFRID). February. Pp.3-12.
Annex 2. Overview papers
FAO (Food and Agriculture Organisation).
(1994). Farming systems development. A participatory approach to helping
small-scale farmers. Rome, Italy.
DDP (Dairy Development Programme),
(1999). A report given at the Annual Smallholder Dairy Producer of the
Year at Rusitu, Chipinge on July 30 1999. Zimbabwe.
Machaya, A. C. (1994). some factors
affecting smallholder dairy production in Zimbabwe. Journal of the
Zimbabwean Society for Animal Production VI: 61-67.
Chimonyo, M. (1998). The effect of work
and nutrition on reproductive performance in Mashona cows in a semi-arid
smallholder area of Zimbabwe. MSc. Thesis. University of Zimbabwe.
Harare.
Titterton, M., Mhere, O., Maasdorp, B.,
Kipnis, T., Ashbell, G., Smith, T. and Weinberg, Z.( 2002).
Ensiling of tropical forages with Particular Reference to African Livestock
Systems:.Forage production and conservation for dry season feeding of
smallholder dairy cattle in the semi-arid region of Southern Africa. In Proc. XIIIth International Silage Conference . Auchincruive, Scotland.
September 11,2002
Gandiya, F. 1999. Smallholder dairying in
Zimbabwe- problems and opportunities. In (Eds. S. Dickin and D.
Dickin) Zimbabwe Society of Animal Production Annual Journal. (Published in
Farming World).Projects. Matobo, Zimbabwe. 26-28 September, pp 82-89
Annex 3.
Dissemination papers
Titterton, M. and Bareeba, G.B. 1999.
Grass and legume silages in the tropics. Paper presented to
Electronic conference on Tropical Silage
held by Food and Agriculture Organisation. September 15-30. Website: http://www.fao.org./WAICENT/FAOINFO/AGRICULT/AGP/AGPC/doc/pasture/pasture.ht.
Nengomasha, E.M., Sikosana, J. and
Titterton, M. 2004. Report on regional dissemination tour of South
Africa, Namibia, Zambia and Mozambique:
Dissemination and Promotion of Livestock Production Programme Research Outputs.
. Livestock Production Research Programme, Natural Resources International.
July 11-24.
Mhere, O. Maasdorp, B. and Titterton, M.
2002. Forage Production and Conservation Manual.: Growing and ensiling annual
and perennial forage crops suited to marginal and semi-arid areas of Southern
Africa. Ed. T. Smith. Livestock Production Programme.. Natural Resources
International.
Mhere, O. 2005. Live fences and Forage
production project in Matabeleland North and South provinces, Zimbabwe. End
of project report. FAO Emergency Unit in collaboration with AREX Matopos
Research Station and ICRAF. Harare, Zimbabwe.
Relevant Research Projects,
with links to the
Research for Development (R4D) web site and Technical Reports:
| R4D |
Project Title |
Technical Report |
| R5188 |
Improving the use of sorghum stover as ruminant feed in Ethiopia |
 |
| Chapters in: Animal Production in Developing Countries. Gill, M., Owen, E., Pollott, G.E. and Lawrence, T.L.J. (Eds.), 1994. |
|
- Sorghum stover as ruminant feed in Ethiopia: effect of cultivar, site of growth, pre-harvest leaf stripping and storage on yield and morphology.
|
 |
- Feeding sorghum stover to Ethiopian sheep and cattle: effect of chopping and amount offered on intake and selection.
|
 |
| R5732 |
Kenya/Malawi: Development and on-farm evaluation of agroforestry livestock feeding systems |
 |
| R6153 |
Adoption of planted forages for smallholder dairying in Kenya |
 |
| R6610 |
Introduction of fodder legumes into rice-based cropping systems and their use as supplements in straw-based rations for dairy cattle in Bangladesh |
 |
| R6619 |
Husbandry strategies for improving the sustainable utilisation of forages to increase profitable milk production from cows and goats on smallholder farms in Tanzania. |
 |
 |
Box-Baling Forage Improves Profitability of Smallholder Milk Producers |
 |
Box baling:
Cut costs of feeding stover |
 |
| R7010 |
The production of silage from mixed drought resistant real and legume crops for milk production from cross-bred cows in the semi-arid region of Southern Africa |
 |
- Forage Production and
Conservation Manual
Growing and ensiling
annual and perennial forage crops
suited to marginal and semi-arid
areas of Southern Africa
|
 |
| R7346 |
Evaluation of the effects of plant diseases on the yield and nutritive value of crop residues used for peri-urban dairy production on the Deccan Plateau in India |
 |
| R7351 |
Increasing the productivity in smallholder owned goats on Acacia Thornveld |
 |
- Alleviating seasonal nutrient fluctuations in semi-arid areas
of Zimbabwe: potential for tree fruits as protein
supplements for goats
|
 |
- Dichrostachys cinerea pods as a protein supplement for goats fed on hay based diets
|
 |
- Acacia and other tree pods as dry season feed supplments for goats
|
 |
| R7376 |
A practical decision support tool to improve the feed management of ruminant work animals: helping extension services to deliver science to farmers |
 |
| R8296 |
Promotion of sustainable approaches for the management of root-knot nematodes on vegetables in Kenya |
 |
| R8339 |
Evaluation of the effects of plant diseases on the yield and nutritive value of crop residues used for peri-urban dairy production on the Deccan Plateau in India |
 |
| ZC0261 |
Development of a Dairy Toolbox.
See Smallholder Dairy Toolbox web site at http://www.dairytoolbox.net |
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For relevant research projects, with links to further information 
Geographical regions included:
Zimbabwe,
Target Audiences for this content:
Livestock farmers,
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